Small Oscillations about the equilibrium point:

AI Thread Summary
The equilibrium point for the potential function v(x) = (1/x^2) - (1/x) is determined to be at x=2. To find the frequency of small oscillations around this point, a Taylor series expansion of v(x) near x=2 is suggested. This approach allows for the approximation of the function, focusing on the quadratic term while neglecting higher-order terms. The resulting approximation can be treated as a simple harmonic oscillator, facilitating the calculation of the oscillation frequency. Understanding these steps is crucial for solving the problem effectively.
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Homework Statement



v(x)= (1/x^2) -(1/x) Find the frequency of small osciallations about the equilibrium point

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The Attempt at a Solution


I have so far worked out the equilibrium point is at x=2, to get this i differentiated v(x) and solved it, but could anybody help me on how i could work out the frequency of small oscialltions for this problem?
 
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It's been a while, but I think I know what's next. You need to approximate the function around the point x=2. Do a taylor series and hopefully the higher order terms are much smaller than the quadratic term. From here you can call it a simple harmonic oscillator.
 
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